A method for operating an electronic device includes: determining a plurality of influence parameters associated with a target disease, the influence parameters at least include a body mass index; determining calculation parameters according to the influence parameters, and determining a risk prediction model for the target disease based on the calculation parameters; collecting medical diagnosis information of an object to be tested corresponding to the influence parameters, and inputting the medical diagnosis information to the risk prediction model to obtain a first risk prediction value; substituting a value of the body mass index in the medical diagnosis information with a weight management target value, inputting the medical diagnosis information to the risk prediction model again to obtain a second risk prediction value; and calculating a weight management benefit prediction value corresponding to the weight management target value according to the first risk prediction value and the second risk prediction value.

Disclosed herein is a non-invasive system for determining tissue composition. The system comprises an imaging system with a non-invasive probe, a signal analyzer, and a correlation processor. The probe includes active imaging components for emitting energy and collecting imaging data including reflected signals from an object of interest. The signal analyzer analyzes the imaging data and determines one or more signal properties from the reflected signals. The correlation processor then associates the one or more signal properties to pre-determined tissue signal properties of different tissue components through a pattern recognition technique wherein the pre-determined tissue signal properties are embodied in a database, and identifies a tissue component of the object based on the pattern recognition technique.

Systems and methods for high frequency impedance spectroscopy detection of daily changes of dielectric properties of the human body to measure body composition and hydration status. According to an aspect, a method at a computing device to determine a set of indirect dynamic human metabolism parameters includes using a sensor on an individual to acquire a set of electrical measurements. The method also includes combining a ratio technique with a canonical model form technique. The also includes performing a series of mathematical calculations on the acquired set of electrical measurements to determine the set of indirect dynamic human metabolism parameters for the individual based on the combined ratio technique and the canonical model form technique. The method further includes generating a trend regarding the set of indirect dynamic human metabolism parameters in response to performing the series of mathematical calculations on the acquired set of electrical measurements to determine the set of indirect dynamic human metabolism parameters for the individual.

A vehicle allocation service system includes an acquisition unit configured to acquire biological information and positional information of a user, a selection unit configured to select a moving object to be provided to the user based on the biological information, a decision unit configured to acquire priority added to a satisfied condition of the biological information of the user and decide an order of vehicle allocation for the selected moving object according to the priority, and an instruction unit configured to instruct the selected moving object to move according to the positional information.

A wound sensor comprising at least one electrode (10a, 10b) and a non-adherent porous layer (25) proximate at least part of the electrode.

A method and system to assess data from a dielectric probe to determine the health of tissue by denoising the data and clustering the data points. The assessment is used to assist medical professionals in the care patients.

An electronic device and method for measuring user body information are provided. The method for measuring user body information includes detecting a contact of a user's body portion on at least two spots of a touch screen of the electronic device, upon detecting the contact of the user's body portion on the at least two spots of the touch screen, applying power to a first coil in the electronic device, and measuring the user body information using at least one of a voltage and a second current measured after a first current is induced across the user's body by a first magnetic field generated from the first coil as the power is applied.

An electronic device includes a memory storing profile information, at least one first electrode, at least one second electrode, and a processor connected to the at least one first electrode and the at least one second electrode. The processor is configured to determine a frequency of at least one signal for measuring body composition, based on the profile information, output a synthesis signal obtained by synthesizing the at least three signals to a body of the user through the at least one first electrode, wherein the synthesis signal includes a signal corresponding to the determined frequency and the at least three signals have different frequencies, receive the synthesis signal passing through the body of the user, through the at least one second electrode, measure body impedance of the user based on the received synthesis signal, and measure the body composition of the user based on the body impedance.

Disclosed is a modular, portable and rapidly deployable system for health assessment comprising a portable, rapidly deployable structure configured to provide immediate and real-time clinical prevention assessment services, which system allows for rapid assembly and disassembly, immediate deployment to even highly remote locations, and provides basic clinical prevention data and screening for a patient user, along with health education and awareness. In certain configurations, the system comprises modular walls that connect to one another to form the shell of a structure, and a plurality of medical instruments, all of which are configured for self-administration by a medically-untrained user. The user may engage one or more user interface devices that guide the user through the use of each medical instrument and collect the user's clinical data for analysis. Once the desired medical assessment devices have been used and the data collected, the data may be analyzed to provide the user a customized health assessment.

Systems and methods for non-invasive fat reduction can include targeting a region of interest below a surface of skin, which contains fat and delivering ultrasound energy to the region of interest. The ultrasound energy generates a thermal lesion with said ultrasound energy on a fat cell. The lesion can create an opening in the surface of the fat cell, which allows the draining of a fluid out of the fat cell and through the opening. In addition, by applying ultrasound energy to fat cells to increase the temperature to between 43 degrees and 49 degrees, cell apoptosis can be realized, thereby resulting in reduction of fat.